ABSTRACT
This project focuses on leveraging 2D Electrical Resistivity Imaging (ERI) to delineate and characterize aquifers within a specific geological context. Given the critical importance of aquifers in groundwater management and resource assessment, accurate delineation becomes essential for implementing sustainable water management practices. ERI presents itself as a promising solution due to its non-invasive nature and cost-effectiveness in providing insights into subsurface structures, particularly hydrogeological formations like aquifers. Through the integration of field data collection using ERI equipment, subsequent data processing, inversion modeling, and interpretation, the project aims to unveil subsurface resistivity patterns indicative of aquifer presence.
Aquifers are pivotal components of our groundwater systems, and their effective characterization is paramount for ensuring sustainable water resource utilization. By employing ERI technology, this project seeks to address the challenges associated with traditional aquifer delineation methods, offering a more efficient and accessible approach to subsurface imaging. Through meticulous field data collection and sophisticated data processing techniques, the project endeavors to generate accurate and detailed maps of subsurface resistivity variations, thereby enabling precise delineation of aquifer boundaries and properties.
This project represents a concerted effort to harness the capabilities of 2D Electrical Resistivity Imaging (ERI) for aquifer characterization, with the overarching goal of advancing our understanding of groundwater dynamics and enhancing water management strategies. By leveraging ERI's non-invasive and cost-effective attributes, coupled with rigorous data analysis methodologies, the project aims to contribute valuable insights into the spatial distribution and properties of aquifers, ultimately facilitating informed decision-making processes in water resource management and conservation efforts.
